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Question 6
1. Describe the advantage of the Bohr effect during intense exercise. 2. VT can be identified as the first point when there is an increase in pO2 breathed out, with... show full transcript
Step 1
Answer
The Bohr effect enhances oxygen delivery to working muscles during intense exercise. When exercising, the production of carbon dioxide (CO2) and lactic acid increases in the muscles, leading to a lower pH (more acidic conditions). This change causes hemoglobin to release oxygen more readily. Consequently, more oxygen is available for consumption by the muscles, which is crucial for sustaining high-intensity exercise.
Step 2
Answer
The time when the cyclist reached VT is identified as 10 minutes after the exercise began.
Step 3
Step 4
Answer
One potential physiological change is an increase in breathing rate. During intense exercise, as CO2 levels rise, the respiratory system compensates by increasing the rate of breathing. This enhanced ventilation helps to expel more CO2, thus preventing its accumulation in the bloodstream and maintaining acid-base balance.
Step 5
Step 6
Answer
GW1516 activates AMPK, which enhances the aerobic capacity and endurance of muscle fibres. This leads to unfair advantages in performance due to an improved ability to utilize fat as an energy source, allowing athletes to perform at higher intensities for longer durations without fatigue.
Step 7
Answer
The overuse of EPO leads to increased red blood cell production, which thickens the blood. This increased viscosity can cause blockages in the coronary arteries, restricting blood flow to the heart muscle. As a result, the heart may receive insufficient oxygen and glucose, increasing the risk of a heart attack.
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